After 2 days at 21°C, copper sulfate solution may undergo some changes due to exposure to air and light. The solution may start to oxidize, forming copper oxide or copper hydroxide precipitates. Additionally, some of the copper sulfate may decompose into copper oxide and sulfur trioxide. Overall, the solution may appear cloudy or have a slight color change due to these reactions taking place over time.
It typically takes 1-2 weeks to grow visible copper sulfate crystals in a saturated solution at room temperature. The size of the crystals and the conditions of the solution can affect the growth rate.
Copper sulfate crystals can be prepared by dissolving copper sulfate powder in warm water until it reaches saturation, then allowing the solution to cool slowly. As the solution cools, copper sulfate will start to crystalize out of the solution. The crystals can be left to dry and then harvested for use.
The water from the solution evaporates. A decrease at mass and volume would also occur.
If copper sulfate comes into contact with a dish left in room temperature, it may oxidize and form copper oxide, which can stain the dish. It is also toxic if ingested, so it is important to clean the dish thoroughly before further use. Additionally, copper sulfate can react with certain substances in the dish and affect the taste or safety of food prepared in it.
You can filter the water from copper sulfate by using a vacuum filtration setup that separates the solid copper sulfate particles from the liquid water. This method avoids the need to heat the copper sulfate, which can cause it to decompose.
If left for two days at room temperature, the water in the solution would evaporate, causing the concentration of copper sulfate to increase. Over time, crystals of copper sulfate would start to form at the bottom of the dish.
u would get a blue waffle
It typically takes 1-2 weeks to grow visible copper sulfate crystals in a saturated solution at room temperature. The size of the crystals and the conditions of the solution can affect the growth rate.
Iron is a more active metal than copper, so it replaces/displaces the copper in the copper sulfate, forming iron sulfate and copper. So the hole in the iron pot is where the iron atoms came from. This is called a single replacement/displacement reaction.
Anhydrous copper(II) sulfate will absorb moisture from the atmosphere, causing it to form blue hydrated copper(II) sulfate. This is because copper(II) sulfate is very hygroscopic, meaning it readily absorbs water from the environment to form a hydrated compound.
If blue copper sulfate is left in a dish with a lid on for 2 days, it will likely remain unchanged. Copper sulfate is a stable compound that does not readily decompose under normal conditions. However, any moisture present may cause the compound to slightly dissolve or form small crystals on the container's sides.
Copper sulfate crystals can be prepared by dissolving copper sulfate powder in warm water until it reaches saturation, then allowing the solution to cool slowly. As the solution cools, copper sulfate will start to crystalize out of the solution. The crystals can be left to dry and then harvested for use.
When a strip of magnesium metal is placed in a solution of copper sulfate, a redox reaction occurs. The magnesium metal undergoes oxidation to form magnesium ions, while the copper ions in the solution are reduced to form copper metal. This results in a displacement reaction where the more reactive magnesium displaces the less reactive copper from the solution.
It will turn brown ish
If a copper coin is dipped in silver nitrate solution for hours or days, the solution will likely turn blue due to the formation of copper(II) nitrate. This reaction occurs as copper from the coin reacts with the silver nitrate in the solution.
The blue color fading indicates that the zinc plate caused a reaction with the CuSO4, forming a complex ion solution. The holes on the zinc plate indicate that zinc underwent galvanic corrosion in the presence of the copper sulfate solution, leading to the formation of zinc ions and electrons. This reaction resulted in the degradation of the zinc plate, forming holes in the process.
The water from the solution evaporates. A decrease at mass and volume would also occur.